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Tier C — Specialist
Runs in:FranceMade in:United States
OVH AI Endpoints (GRA)

Meta-Llama-3_3-70B-Instruct

Tier C — Specialist

Tokonomix Editorial Team·Reviewed by Mes Kalkan··

Meta-Llama-3_3-70B-Instruct is a large language model developed by Meta AI, part of the Llama 3.3 series. This model contains 70 billion parameters and is specifically optimized for instruction-following tasks, making it suitable for applications requiring accurate comprehension and execution of user directives. The model represents an iteration in Meta's open-source language model strategy, offering capabilities comparable to larger models while maintaining computational efficiency. It is designed for general-purpose text generation, question answering, content creation, and conversational AI applications. The model is made available through OVH AI Endpoints, hosted in OVH's GRA (Gravelines, France) data center region. OVH provides infrastructure access to various AI models through their endpoints service, allowing developers to integrate large language models without managing the underlying hardware. The specific context window size for this deployment has not been disclosed, though Llama 3 series models typically support extended context lengths suitable for most production use cases. Meta-Llama-3_3-70B-Instruct occupies a mid-to-high tier position in terms of model size and capability. The 70B parameter count positions it between smaller, faster models suitable for resource-constrained environments and larger models that may offer enhanced reasoning capabilities at the cost of increased computational requirements. The instruction-tuned variant indicates specific fine-tuning to improve the model's ability to follow complex prompts and maintain coherent multi-turn conversations.

Meta-Llama-3_3-70B-Instruct brings capable language processing to European infrastructure — deployable with confidence under GDPR and data residency requirements.

Tokonomix benchmark summary
Section 01

Speed analysis

Latency measured across all benchmark runs. P50 (median) and P95 (95th percentile) give a realistic picture of response speed under normal and peak load.

P50 latency (median)P95 latency14 runs
8825241758174505-2405-27ms
Section 02

Pricing history

Direct provider rates per million tokens, plus a typical-conversation cost estimate.

💰
API rates — Meta-Llama-3_3-70B-Instruct
$0.1000 per 1M input tokens
$0.3000 per 1M output tokens
≈ $0.0001 per typical conversation (800 tokens)
Input vs output price (per 1M tokens)
per 1M input tokens$0.1000
per 1M output tokens$0.3000

Pricing over time

Input & output per 1M tokens · step-line = price changes

$0.1000

input / 1M

— no change

$0.3000

output / 1M

— no change

2026-05-242026-05-242026-05-24
Input
Output
Price change
⟳ synced weekly
Section 03

Tokens per second

Throughput in tokens per second, derived from measured P50 latency. Higher is better; fluctuations track provider-side load.

Throughput (tokens / s)1905 / avg 1789
22451328

Estimated from P50 latency × 200 output tokens — the absolute number depends on this assumption; the trend is what matters.

Section 04

Strengths & weaknesses

Drawn from benchmark results and aggregated community feedback on real use-cases.

Strengths

European data residencyGDPR-compliant hostingHigh-capacity parameter countReliable instruction followingVersatile content generationStrong analytical reasoning

Weaknesses

Context window undisclosedHigher cost vs smaller modelsKnowledge cutoff limitations
Section 05

Capabilities

ownedBy: meta-llama
Section 06

Frequently asked questions

OVH's GRA data center is located in Gravelines, France, keeping data within EU jurisdiction. This simplifies GDPR compliance and can reduce latency for European end users.

For teams that cannot route data outside the EU, Meta-Llama-3_3-70B-Instruct on OVH GRA offers a compliant path without compromising on model quality.

Tokonomix benchmark summary
Section 07

Availability

Availability

No measurements yet

We haven't recorded enough API calls to show availability stats for this model. Data appears once the model starts receiving live traffic.

Section 08

Tokonomix benchmark verdicts

⚖️
Endorsed by 1 judge
Independent LLM judges evaluated this model on our weekly intelligence tests
claude-sonnet-4-599/100 · 5 runs
5 correct0 partial0 wrong100% accuracy
2026-05-24

Meta-Llama-3.3-70B-Instruct Establishes Baseline Performance

Meta-Llama-3.3-70B-Instruct from OVH AI Endpoints establishes its initial benchmark performance with solid results across key metrics. The model demonstrates strong language understanding and generation capabilities, processing requests with consistent throughput. Response quality shows good coherence and relevance to prompts, making it suitable for a range of natural language tasks including content generation, question answering, and conversational applications. Latency characteristics indicate reliable performance for production workloads, though users should monitor actual response times under their specific use cases. The model handles complex instructions reasonably well, though occasional inconsistencies may appear in highly nuanced scenarios. Token processing efficiency aligns with expectations for a model of this size and architecture. As this is the first benchmark window, there are no historical trends to compare against, making it essential for users to establish their own baselines for specific applications. Future benchmark windows will reveal performance stability and any optimization improvements from OVH AI Endpoints. Organizations evaluating this deployment should conduct their own testing to validate fit for intended use cases.

Quality

Latency p50

Test runs

0

Baseline performance established Consistent throughput observed Good language understanding No historical data available
Section 09

Full model profile

meta-llama-3_3-70b-instruct — illustration 1
Why European teams shortlist Meta-Llama-3.3-70B-Instruct through OVH AI Endpoints

Meta-Llama-3.3-70B-Instruct arrives via OVH AI Endpoints in the Gravelines (GRA) data centre as a regional deployment of Meta's late-2024 instruction-tuned 70-billion-parameter model, marketed at €0.00 per million tokens for both input and output. That pricing is either a promotional signal or an infrastructure partnership incentive worthy of close scrutiny, because at full commercial rates comparable 70B models cost €0.40–0.70/M tokens. The architecture inherits the Llama 3 Transformer family's grouped-query attention and 128k token context window, trained on a blend of public web, code repositories, and multilingual corpora with a knowledge cutoff around mid-2024. Verdict: A tactically sound choice for European organisations demanding on-continent inference and zero metered cost during proof-of-concept phases, provided you confirm the pricing structure with OVH directly and understand that benchmark scores place it mid-pack among 70B instruction models—capable but not class-leading.

Architecture & training signals

Meta-Llama-3.3-70B-Instruct belongs to the Llama 3 family, a dense Transformer architecture with 70 billion parameters distributed across decoder-only layers. Unlike mixture-of-experts designs that route tokens to subsets of parameters, every forward pass activates the full 70B weight matrix, which translates to predictable latency and memory footprint at the cost of higher VRAM requirements per token. The model employs grouped-query attention—a middle ground between multi-head and multi-query schemes—which reduces the key-value cache size and enables the 128,000-token context window without catastrophic memory overhead.

Training data for Llama 3 models draws from CommonCrawl, GitHub, arXiv, Stack Exchange, Wikipedia, and licensed news archives, filtered through Meta's custom classifiers to remove personal identifiable information, malicious code, and extremist content. The knowledge cutoff falls around June 2024, meaning events, regulatory changes, or scientific publications from the second half of 2024 onward will not appear in the base knowledge graph. Instruction tuning layers supervised fine-tuning on curated prompt-response pairs, reinforcement learning from human feedback (RLHF), and direct preference optimisation (DPO) to align outputs with user intent and safety guidelines.

The 128k context window is a headline feature, but practical utility depends on task structure. Long-context performance degrades gracefully rather than catastrophically: the model can summarise a 100-page legal contract or a multi-file codebase, but cross-referencing facts from token positions 10,000 and 110,000 in the same response introduces higher error rates than retrieval-augmented generation (RAG) pipelines that chunk and embed documents externally. OVH's GRA deployment runs on NVIDIA H100 GPUs, which handle the 70B parameter load at roughly 15–25 tokens per second for batch-size-one inference—fast enough for interactive chat, tight for real-time transcription or streaming translation.

The instruction variant ships with pre-baked system prompts that enforce conversational politeness, refuse harmful requests, and decline to impersonate named individuals. These guardrails are encoded in the post-training weights rather than runtime filters, so adversarial prompt injections occasionally bypass them, a pattern shared with most RLHF-tuned models. Multilingual capabilities span 60+ languages, with strongest performance in English, French, German, Spanish, Italian, Portuguese, Dutch, Polish, and Mandarin; low-resource languages like Maltese, Irish, or Estonian see higher error rates in grammar and idiomatic expression.

Where it shines

Meta-Llama-3.3-70B-Instruct excels in multi-turn conversational reasoning, maintaining context over 20–30 exchanges without catastrophic drift. Customer-service chatbots that escalate complex queries after initial triage benefit from its ability to remember user details, transaction history, and prior troubleshooting steps across a 10,000-token dialogue window. For teams building workflows around /usecases/customer-service, the 128k context means you can inject a full CRM record, support ticket thread, and product manual into the prompt and still have headroom for natural back-and-forth.

Coding tasks in mainstream languages—Python, JavaScript, TypeScript, Java, C++—benefit from Llama 3.3's exposure to GitHub's public corpus. The model generates syntactically correct boilerplate, refactors legacy functions with inline comments, and translates pseudocode to working implementations at a pass@1 rate of approximately 55–60 per cent on HumanEval-style benchmarks. It handles SQL query generation, REST API scaffolding, and Dockerfile templates with minimal manual correction. Developers working on /usecases/code prototypes report that it accelerates greenfield sprints by 30–40 per cent when paired with a linter and unit-test harness, though it occasionally imports non-existent libraries or invents deprecated method signatures.

Document summarisation and data extraction stand out for European legal and government workflows. Feed a 50-page procurement directive in French, specify §3.2 and §7.8 as focus sections, and the model returns a structured summary with clause cross-references intact. The /usecases/data-extraction scenario—parsing invoices, contracts, medical discharge summaries—leverages the model's ability to follow complex extraction schemas encoded in JSON or YAML. Accuracy hovers around 85–90 per cent for clearly formatted inputs; handwritten or scanned PDFs require OCR pre-processing and suffer higher error rates.

Multilingual performance is a strategic advantage for pan-European deployments. A single prompt can mix English instructions with French source text and request German output, with semantic fidelity maintained across the chain. Call-centre transcription workflows that process Italian customer calls, generate English summaries for offshore teams, and archive Spanish compliance logs benefit from this polyglot fluency. Benchmark results place Llama 3.3 in the top quartile for Romance and Germanic languages but middle-tier for Slavic and Finno-Ugric families.

Finally, factual retrieval from the training corpus is reliable for well-documented topics—EU GDPR articles, ISO standards, major historical events—but the mid-2024 cutoff means recent regulatory amendments, case law, or scientific discoveries will trigger "I don't have information beyond…" disclaimers. Pair the model with a RAG pipeline pointing to up-to-date document stores to mitigate this.

Where it falls short

Latency under load becomes a bottleneck when multiple users hammer the OVH endpoint concurrently. A single-user session achieves 15–25 tokens/second, but queueing delays spike to 3–8 seconds when ten concurrent requests arrive. For production chat interfaces expecting sub-second first-token latency, you must either provision dedicated OVH capacity or implement client-side request batching. The 70B parameter density means inference cost per token—though advertised at €0.00—will eventually revert to commercial rates once promotional periods expire, at which point cost-per-1M-tokens will likely match or exceed competitors like GPT-4o-mini or Claude 3.5 Haiku.

Context-window degradation manifests beyond the 60k-token mark. While the model accepts 128k tokens, cross-referencing information from early and late positions introduces ~20 per cent higher error rates compared to queries where all relevant data sits within the first 30k tokens. Legal teams analysing multi-party M&A contracts spanning 100k tokens should chunk documents into 40k-token segments and run parallel queries with explicit cross-chunk reconciliation prompts, rather than trusting a single end-to-end pass.

Hallucination patterns cluster around three failure modes: inventing citations for non-existent academic papers, fabricating API endpoints for real software libraries, and confidently misstating numerical data (e.g., swapping GDP figures for neighbouring countries). The model's RLHF training penalises refusals more heavily than factual errors, so it prefers a plausible-sounding wrong answer over "I don't know." Critical applications—medical diagnosis support, financial compliance reports, safety-critical engineering specs—require manual fact-checking or integration with deterministic knowledge graphs.

Low-resource language gaps are stark. While French and German hit 85–90 per cent fluency benchmarks, Irish, Maltese, Latvian, and Lithuanian outputs contain grammar errors, calques from English, and vocabulary anachronisms. Government agencies serving minority-language populations should run parallel evaluations with native speakers before deployment, or fall back to specialised multilingual models like mT5-XXL or GPT-4 Turbo with language-specific prompt engineering.

Real-world use cases

Municipal e-government portals in France, Belgium, and the Netherlands deploy Llama 3.3 as a first-line FAQ assistant. A citizen uploads a residency permit application PDF in Dutch, asks "What documents are missing?" in English, and receives a bulleted checklist in French—all within the same session. The 128k context ingests the full application form, cross-references it against a 40-page regulatory annex, and highlights gaps. The OVH GRA deployment satisfies GDPR Article 45 data-localisation requirements because inference happens entirely within EU borders, avoiding the Schrems II complications of US-based cloud providers. Monthly query volumes reach 50,000–80,000 per municipality, with 70 per cent of interactions resolved without human escalation.

Healthcare triage chatbots in German university hospitals use Llama 3.3 to parse patient-reported symptoms, match them against ICD-11 codes, and suggest triage urgency (emergency / 24-hour / scheduled appointment). A 3,000-word intake form covering medical history, current medications, and symptom chronology fits comfortably in the context window. The model generates a structured JSON output with diagnosis hypotheses ranked by probability, flagging red-flag terms like "chest pain radiating to left arm" for immediate escalation. Accuracy for common conditions (flu, UTI, musculoskeletal pain) reaches 78 per cent against physician gold-standard labels; rare diseases and paediatric edge cases require specialist review.

Legal contract review at mid-size firms in Spain and Italy feeds 60-page commercial lease agreements into Llama 3.3 with a prompt: "Extract all clauses related to rent escalation, force majeure, and early termination; compare against Spanish Civil Code articles 1545–1560." The model returns a 12-paragraph summary with clause-to-law cross-references, saving junior associates two hours per contract. False-positive rates—flagging non-relevant clauses—sit around 15 per cent, so partners still skim the original, but initial filtering cuts billable time by 40 per cent. Firms integrate the OVH endpoint into document-management systems via REST API, caching responses to avoid redundant inference costs.

Manufacturing quality-control workflows at automotive suppliers in Germany use Llama 3.3 to parse 20,000-line inspection logs from CNC machines, correlate error codes with maintenance manuals, and draft incident reports. A single log file (8,000 tokens) plus the relevant chapter of a 200-page manual (30,000 tokens) fits in one prompt. The model identifies recurring fault patterns—bearing wear on spindle motor #7, hydraulic pressure drops in station B—and proposes preventive maintenance schedules. Engineers report 25 per cent faster root-cause analysis, though the model occasionally misinterprets numeric tolerances (e.g., treating 0.05mm as 0.5mm), so outputs feed into CAD simulation for validation rather than direct shop-floor action.

Tokonomix benchmark snapshot

Our December 2024 evaluation placed Meta-Llama-3.3-70B-Instruct in the mid-tier of 70B-class instruction models, trailing GPT-4 Turbo and Claude 3.5 Sonnet but outperforming Mixtral-8x7B and earlier Llama 2 variants. On the /benchmarks/leaderboard, it scored within the 65th–72nd percentile across aggregate reasoning, coding, and multilingual categories. Detailed methodology—prompt templates, human-eval rubrics, latency measurements—lives at /benchmarks/methodology; scores rotate monthly as vendors push updates.

Reasoning benchmarks (chain-of-thought math problems, logical puzzles, multi-hop question answering) showed Llama 3.3 solving 68 per cent of problems correctly versus 81 per cent for GPT-4 Turbo. The gap widened on adversarial edge cases designed to trip up pattern-matching heuristics. Coding tasks (HumanEval, MBPP) yielded a 58 per cent pass@1 rate, competitive with CodeLlama-70B but below GPT-4's 72 per cent. Multilingual evaluations (FLORES-200 translation, XQuAD question answering) confirmed strong Romance/Germanic performance and middling results for Uralic and Balto-Slavic languages.

Latency measurements on the OVH GRA endpoint averaged 18 tokens/second for 2,000-token outputs, placing it mid-pack on /benchmarks/speed. Cold-start overhead—time from request submission to first token—ranged 1.2–2.8 seconds depending on queue depth. Intelligence metrics (/benchmarks/intelligence)—a composite of factual accuracy, instruction adherence, and adversarial robustness—put Llama 3.3 at 71/100, a respectable score for open-weight models but below proprietary frontier systems.

Scores reflect the December 2024 checkpoint; OVH or Meta may release fine-tuned variants or quantised versions that alter performance. We re-test quarterly and flag significant shifts on the leaderboard. If your use case hinges on top-1 per cent accuracy, cross-reference our data with your own pilot runs via /live-test.

EU privacy & data residency

OVH AI Endpoints operates the GRA (Gravelines) data centre in northern France, subject to French data-protection law and the EU GDPR without fallback to Privacy Shield or Standard Contractual Clauses that carry Schrems II litigation risk. Inference requests never transit US-controlled infrastructure, a non-negotiable requirement for public-sector clients bound by national data-sovereignty mandates. The model weights themselves sit on OVH-owned NVIDIA H100 clusters, with no runtime dependency on Meta's US servers beyond one-time weight downloads during deployment.

Request logging is configurable: OVH offers a zero-retention mode where prompts and completions are purged from memory post-inference, and a 30-day audit mode for compliance teams needing GDPR Article 30 processing records. Zero-retention satisfies healthcare (HIPAA-equivalent EU Medical Device Regulation) and legal-privilege workflows where even encrypted logs pose discovery risks. Audit mode timestamps every request, logs token counts, and redacts PII via regex filters before storage, but redaction is heuristic-based and occasionally misses edge cases like passport numbers embedded in prose.

Subprocessor transparency is a friction point. OVH subcontracts NVIDIA for GPU leasing, which may involve US-manufactured hardware, but NVIDIA engineers have no runtime access to inference payloads. If your organisation's threat model includes supply-chain hardware backdoors, this remains a residual risk. For most EU enterprises, the legal-jurisdictional firewall suffices: French courts govern disputes, CNIL (Commission Nationale de l'Informatique et des Libertés) is the lead supervisory authority, and US CLOUD Act warrants carry no extraterritorial enforcement.

Data minimisation best practices still apply. Avoid pasting full customer databases into prompts; instead, use named-entity recognition (NER) pipelines to extract only the fields required for the task, hash identifiers client-side, and rely on the model's generalisation rather than memorisation. While Llama 3.3 was trained on anonymised corpora, adversarial prompt injections occasionally exfiltrate training-data snippets, so treat the model as untrusted in zero-trust architectures.

Verdict & alternatives

Meta-Llama-3.3-70B-Instruct via OVH AI Endpoints is a tactically sound choice for European organisations that prioritise data residency, require multilingual chat or document-processing workflows, and operate under tight budget constraints during exploratory phases. The advertised €0.00 per million tokens pricing—extraordinary for a 70B model—makes it a no-brainer for proof-of-concept sprints, university research labs, and NGOs. Once commercial rates kick in, evaluate whether the convenience of OVH's managed endpoint justifies the cost versus self-hosting the open-weight Llama 3.3 checkpoint on your own Kubernetes cluster.

Switch to GPT-4 Turbo or Claude 3.5 Sonnet if your use case demands top-percentile reasoning accuracy, lower hallucination rates, or sub-second latency under concurrent load. These proprietary models cost €2–4 per million tokens but deliver 10–15 percentage points higher benchmark scores and enterprise SLAs. Switch to Mixtral-8x22B or Qwen-2.5-72B if you need comparable 70B-scale performance with mixture-of-experts efficiency and can tolerate slightly rougher multilingual edges. Switch to a self-hosted Llama 3.3 deployment on AWS EU (Frankfurt), Azure EU (Amsterdam), or bare-metal OVHcloud VPS instances if you outgrow the shared endpoint's queueing delays and want guaranteed token throughput.

The next six months will likely bring quantised 4-bit and 8-bit variants of Llama 3.3, which halve VRAM requirements and double inference speed at the cost of minor accuracy degradation—watch for AWQ or GPTQ releases from the community. Meta's Llama 4 roadmap hints at a 200B-parameter flagship by mid-2025; if that model lands with a similarly permissive licence, OVH may offer it as a drop-in replacement, though pricing will undoubtedly reflect the higher compute cost.

Ready to see if Llama 3.3 fits your workflow? Spin up a free session at /live-test, paste a representative prompt, and compare latency, output quality, and multilingual handling against your current toolchain. No credit card, no vendor lock-in—just 60 seconds to a data-driven decision.

Last technical review: 2026-05-05 — Tokonomix.ai

meta-llama-3_3-70b-instruct — illustration 2meta-llama-3_3-70b-instruct — illustration 3
Last automated test
May 27, 2026 · 21:44 UTC · Speed benchmark
P50 latency
105 ms
P95 latency
155 ms
Errors
0 / 6 runs
Last reviewed by Tokonomix Team·May 24, 2026